Banning verbal communication to and from a selected party in a game playing system

ABSTRACT

Voice communication between players using one or more multiplayer game console is selectively controlled. A player may selectively block voice communications with another player during a current and any future games. In addition, an authorized party (e.g., a parent) can selectively preclude voice communication by a minor child by setting an option that is uploaded to an online game service service; the minor child is then precluded from voice communication on any voice console via the online game service. Also, a player may be temporarily or permanently banned from voice communication during games played through an online game service in response to complaints made by other players concerning the player&#39;s behavior in voice communication while playing games, e.g., excessive use of profanity. When a player signs on to the online game service, data are downloaded to the game console that indicate any applicable restraints on voice communication.

FIELD OF THE INVENTION

The present invention generally relates to control of verbalcommunication between players of an electronic game; and morespecifically, pertains to selectively preventing verbal communicationbetween players who are using one or more electronic game consoles toplay a game.

BACKGROUND OF THE INVENTION

When playing a non-electronic game, for example, a card game such asbridge, with one or more other people, the social interaction and verbalsparring that arises during the game typically adds much to theenjoyment of the players. The verbal communication is also an element ofgame play, since comments made by a player to an opponent during a gamecan cause the opponent to lose concentration and perform poorly, whilecomments made to team members can provide encouragement, therebypromoting their quality of play. Communication between persons playinggames is thus clearly an important element of the gaming experience.

The verbal repartee between players that is so important to game playwas missing when players first began to play electronic games over theInternet and other network links. Players at different sites weregenerally not able to communicate with each other, because theirpersonal computers (PCs) only communicated data related to the play of agame over the network. The loss of the verbal social interaction that isso much a part of game play when players are all in the same room causedplay of games over the Internet to be less interesting. To address thisproblem, hardware and software solutions were developed that supportvoice communications between PCs over the network during game play. Atabout the same time, the techniques were developed to convey voice overthe Internet or other networks (i.e., voice over IP) to enablecommunications between parties connected by the network withoutincurring the cost of conventional telephone long distance calls. Thiswork resulted in the creation of various protocols supporting voice overIP communication, including the H.323 specification, Session InitiationProtocol (SIP), and Media Gateway Control Protocol/Media GatewayController (MGCP/MEGACO). Much of the functionality and techniques ofvoice over IP is applicable to and has been used in schemes to enableverbal communications over a network between players of PC electronicgames. Examples of systems that provide voice communication betweenconnected PCs during game play include Microsoft Corporation's SIDEWINDER GAME VOICE™, Mindmaker, Inc.'s GAME COMMANDER 2™ device andsoftware, TEAMSOUND™ software, GameSpy Industries' ROGER WILCO software,and Alienware Technology's FIRST CONACT software. The voicecommunication provided by these products greatly adds to the enjoymentof playing games on PCs that are connected over the Internet or othernetworks. Some of these systems operate in peer-to-peer mode, in whichvoice data are transferred over the network directly between PCs, whileothers require a voice server that receives the voice data from one gameplayer computer and forwards the data over the network to one or moreother computers connected to the network for playing the game.

In contrast to a PC game system in which only one player is supported oneach PC, a multiplayer game console supports a plurality of players oneach console. Voice communication systems have been developed for gameconsoles that enable verbal communications between a plurality ofplayers who are playing a game. The verbal communication can be betweenplayers on the same game console or between players on different gameconsoles that are coupled in communication, either directly or over anetwork, such as the Internet.

While verbal communication during game play is generally a desirablefeature, if abused or misused by a specific player, it may becomebothersome to one or more other players in a game. The cause of theannoyance to a player may be the repeated use of profanity or sexuallyexplicit language by the specific player, or may simply be language orcomments that a player feels to be socially unacceptable. Since eachplayer has an individual reaction to certain verbal behavior, the causesfor a player to be annoyed by the verbal communication with a specificplayer are virtually unlimited. Nevertheless, it will be important toenable any player who becomes annoyed with the verbal communication of aspecific player to prevent further verbal communications with thatspecific other player. The prior art does not enable a player to blockverbal communication with an annoying player in a specific game playedon a multiplayer game console, or to generally block an annoying playerfrom talking or listening to the player during any game played onmultiplayer game consoles.

Control of verbal communication with selected other players might beimplemented by game software, to permit the control to extend only overa single game play session. Alternatively, the control of verbalcommunication might better be applied based upon player data maintainedat a central site, such as an online game service service. Each timethat a player logs on through a game console to play a game over thenetwork, the data can then be accessed to determine if verbalcommunication by one of the players or between certain players has beenprecluded. The act by a player of muting verbal communications with aselected player during a game should preferably not alert the selectedplayer of that decision, and should not adversely impact on the player'sability to communicate with other players in a game. The muting of aselected player by another player should remain in effect, regardless ofchanges in an alias or changes in the gaming device used by the selectedplayer to play games over a network.

Parents may want to block their child from participating in voicecommunication during game play to avoid exposure to even mild profanityor verbal communication with someone who might attempt to contact thechild outside the scope of game play, for harmful purposes. The parentalblocking of verbal communications of a child should be stored on theonline game service and should still be in effect if the childe connectsfrom a different game console. The prior art game voice communicationsystems do not permit blocking verbal communications by a selectedplayer, such as a child, participating in games using a multiplayer gameconsole.

Another area of control of verbal communications relates to the conceptof policing the behavior of players. Ideally, the reactions of otherplayers exposed to a specific player's behavior during verbalcommunications while playing games on a network should be the basis forany prohibition placed on further verbal communication by that player.Should any player's verbal conduct be viewed as so egregious (based uponthe number of complaints received from other players, or some othercriteria) as to warrant it, an automated function on the online gameservice or the online game service operator should be able to preventthat player from participating in verbal communication while playinggames. The ban on verbal communication by such a player might only befor a limited period of time, e.g., for a period of a week, but, ifjustified by continued unacceptable verbal behavior, the ban on verbalcommunication by the player might be made permanent. Again, the currentvoice communication systems do not enable this level of control to beapplied to verbal communication by selected players on a multiplayergame console who are connecting to other game consoles through an onlinegame service service.

SUMMARY OF THE INVENTION

As noted above, voice communication between one person playing a game ona PC connected over a network to one or more other players who are eachusing their own PC to play the game is well known. However, the presentinvention pertains to multiplayer game consoles that enable verbalcommunication between players who are playing the game on one or moregame consoles. Specifically, the present invention enables verbalcommunication by a specific player to be controlled during one or moregames played on multiplayer game consoles. To accomplish this function,data are maintained for each player participating in the game. The datainclude an indicator referencing a specific player who has beenprecluded from verbally communicating during game play. The blocking ofa player from verbally communicating applies during a current gamesession or during all games played with another player who has chosennot to verbally communicate with the specific player, or during allgames played by the specific player using an online game serviceservice, or during all games played by the specific player using aspecific multiplayer game console. In response to the indicator in thedata and in accord with one of these criteria, verbal communication withthe specific player is thus prevented.

If the data include an association between the other player who haschosen not to verbally communicate with the specific player and theindicator referencing the specific player, the specific player will beprevented from verbally communicating with the other player in any gamein which both the other player and the specific player areparticipating. To achieve this capability, the data are maintained foreach player in games being played over the network and are accessed bythe multiplayer game console.

It is also contemplated that the data can be created and maintainedlocally by a game being played on the multiplayer game console. In thiscase, the data will include an association between the other player whohas chosen not to verbally communicate and the indicator referencing thespecific player, so that the specific player will be prevented fromverbally communicating with the other player during a game in which boththe other player and the specific player are participants.

Another type of verbal communication control is provided by enabling aparent or other authorized party to select an option on the game consolethat determines whether a minor child is able to participate in verbalcommunication while playing games. In this case, the indicator includedin the data references the minor child as the specific player andindicate that the parent or authorized party has chosen to block verbalcommunication in games played by the minor child.

In most cases, the data that include the indicator are accessed at theonline game service used for playing games over the network. Indeed, theindicator indicating that a specific player is precluded from verballycommunicating can also be automatically created as a function of anumber of complaints made by other players about the verbalcommunication behavior of the specific player. For example, if aspecific player uses excessive profanity in verbal communications duringgame play so that a sufficient number of other players complain, thespecific player can be automatically prevented from using voicecommunication for a defined time interval, and, if the problemcontinues, the prohibition can be made permanent. The player who hasbeen prevented from verbally communicating cannot avoid the problemsimply by changing to a different alias or by using a differentmultiplayer game console. The indicator in the data refers to thespecific player independently of any alias used by the specific playerand without regard to the game console used by the specific player toplay a game over the network.

A player who has been precluded from verbally communicating with anotherplayer will not receive any indication that such a decision has beenmade. Thus, it is not evident that a player has chosen not tocommunicate with another player. If a specific player has been generallyprecluded from verbally communicating in all games, the display willindicate to all other players in a game in which the specific player isparticipating, that the specific player has been muted.

Verbal communication between players is preferably prioritized basedupon user-define priorities. For example, a user may specify that verbalcommunication with another player will always have priority, orgame-specific roles assumed by players may be the basis for setting thepriority of a verbal communication relative to other verbalcommunications. Thus, a verbal communication from a team leader may beset to have priority over verbal communications from other members ofthe team. The game may define the priorities, or the player maydetermine them.

Another aspect of the present invention is directed to a memory mediumhaving a plurality of machine executable instructions for carrying outthe steps of the method discussed above. Still another aspect of theinvention is directed to a system for preventing verbal communication bya specific player during play of an electronic game. The system includesa multiplayer game console having a processor, a network interfaceadapted for communicating over a network with at least one othermultiplayer game console, verbal communication input and output devicesfor each player who will be verbally communicating during the game, anda memory in which are stored machine instructions for causing theprocessor to carry out a plurality of functions. These functions aregenerally consistent with the steps of the method discussed above.

BRIEF DESCRIPTION OF THE DRAWING FIGURES

The foregoing aspects and many of the attendant advantages of thisinvention will become more readily appreciated as the same becomesbetter understood by reference to the following detailed description,when taken in conjunction with the accompanying drawings, wherein:

FIG. 1 is a schematic isometric view of a multiplayer game console andvoice communication system in accord with the present invention;

FIG. 2 is a block diagram of the multiplayer game console and voicecommunication module of FIG. 1;

FIG. 3 is a functional block diagram of a multiplayer game console withvoice communication capability;

FIG. 4 is a functional block diagram illustrating two multiplayer gameconsoles coupled in point-to-point communication over a network;

FIG. 5 is a block diagram illustrating a first multiplayer game consolecoupled in communication with three other multiplayer game consoles overa network; FIG. 6 is functional block diagram illustratingprioritization encoding for a plurality of players on a game consolehaving two parallel encoders;

FIG. 7 is a logic diagram illustrating the steps employed by the presentinvention in selecting packets from a queue to decode on a multiplayergame console;

FIG. 8 is a functional block diagram illustrating a Type 1 decodingengine used in the multiplayer game console;

FIG. 9A is a functional block diagram illustrating a Type 2 decodingengine used in the multiplayer game console;

FIG. 9B is a block diagram illustrating details of the mixers and4-stream parallel decoder of FIG. 9A;

FIG. 10 is a logic diagram illustrating further details of the steps fortransmitting and receiving encoded packets of sound data over a network;

FIG. 11 is a functional block diagram showing how voice streams arereceived, queued, and decoded for each player on a multiplayer gameconsole;

FIG. 12 is a flow chart illustrating the steps carried out for roundrobin encoding of sound packets;

FIG. 13 is an exemplary user interface for selecting voice options in agame that employs voice communication between players; and

FIGS. 13A and 13B illustrate two different options that are selectableby a player to control or preclude voice communication with anotherplayer in a multiplayer game, in accord with the present invention.

DESCRIPTION OF THE PREFERRED EMBODIMENT

Exemplary Gaming System for Practicing the Present Invention

As shown in FIG. 1, an exemplary electronic gaming system 100 includes agame console 102 and support for up to four user input devices, such ascontrollers 104 a and 104 b. Game console 102 is equipped with aninternal hard disk drive (not shown in this Figure) and a portable mediadrive 106 that supports various forms of portable optical storage media,as represented by an optical storage disc 108. Examples of suitableportable storage media include DVD discs and compact disk-read onlymemory (CD-ROM) discs. In this gaming system, game programs arepreferably distributed for use with the game console on DVD discs, butit is also contemplated that other storage media might instead be used,or that games and other programs can be downloaded over the Internet orother network.

On a front face of game console 102 are four connectors 110 that areprovided for electrically connecting to the controllers. It iscontemplated that other types of connectors or wireless connectionsmight alternatively be employed. A power button 112 and a disc trayeject button 114 are also positioned on the front face of game console102. Power button 112 controls application of electrical power to thegame console, and eject button 114 alternately opens and closes a tray(not shown) of portable media drive 106 to enable insertion andextraction of storage disc 108 so that the digital data on it can beread and loaded into memory or stored on the hard drive for use by thegame console.

Game console 102 connects to a television or other display monitor orscreen (not shown) via audio/visual (A/V) interface cables 120. A powercable plug 122 conveys electrical power to the game console whenconnected to a conventional alternating current line source (not shown).Game console 102 may be further provided with a data connector 124 totransfer data through an Ethernet connection to a network and/or theInternet, or through a broadband connection. Alternatively, it iscontemplated that a modem (not shown) may be employed to transfer datato a network and/or the Internet. As yet a further alternative, the gameconsole can be directly linked to another game console via an Ethernetcross-over cable (not shown).

Each controller 104 a and 104 b is coupled to game console 102 via alead (or in another contemplated embodiment, alternatively, through awireless interface). In the illustrated implementation, the controllersare Universal Serial Bus (USB) compatible and are connected to gameconsole 102 via USB cables 130. Game console 102 may be equipped withany of a wide variety of user devices for interacting with andcontrolling the game software. As illustrated in FIG. 1, each controller104 a and 104 b is equipped with two thumb sticks 132 a and 132 b, aD-pad 134, buttons 136, and two triggers 138. These controllers aremerely representative, and other gaming input and control mechanisms maybe substituted for or used in addition to those shown in FIG. 1, forcontrolling game console 102.

Removable function units or modules can optionally be inserted intocontrollers 104 to provide additional functionality. For example, aportable memory unit (not shown) enables users to store game parametersand port them for play on another game console by inserting the portablememory unit into a controller on the other console. Other removablefunction units are available for use with the controller. In connectionwith the present invention, a removable function unit comprising a voicecommunicator module 140 is employed to enable a user to verballycommunicate with other users locally and/or over a network. Connected tovoice communicator module 140 is a headset 142, which preferablyincludes a boom microphone 144 or other type of audio sensor thatproduces an input signal in response to incident sound, and an headphone146 or other type of audio transducer for producing audible sound inresponse to an output signal from the game console. In anotherembodiment that is being contemplated (not shown), the voicecommunicator capability is included as an integral part of a controller(not shown) that is generally like controllers 104 a and 104 b in otherrespects. The controllers illustrated in FIG. 1 are configured toaccommodate two removable function units or modules, although more orfewer than two modules may instead be employed.

Gaming system 100 is of course capable of playing games, but can alsoplay music, and videos on CDs and DVDs. It is contemplated that otherfunctions can be implemented by the game controller using digital datastored on the hard disk drive or read from optical storage disc 108 indrive 106, or from an online source, or from a function unit or module.

Functional Components for Practicing the Present Invention

Turning now to FIG. 2, a functional block diagram illustrates, in anexemplary manner, how components are provided to facilitate voice orverbal communication between players during the play of electronic gameson the multiplayer game console. As noted above, this embodiment of gameconsole 100 can have up to four players on each console, and each playercan be provided with a controller and voice communicator. Details of avoice communicator module 140′ are illustrated in connection with itsassociated controller 104 a. It will be understood that controllers 104b, 104 c, and 104 d (if coupled to game console 100) can optionally eachinclude a corresponding voice communication module 140′ like thatcoupled to controller 104 a. In a current preferred embodiment, voicecommunication module 140′ includes a digital signal processor (DSP) 156,an analog-to-digital converter (ADC) 158, a digital-to-analog converter(DAC) 161, and a universal serial bus (USB) interface 163. In responseto sound in the environment that is incident upon it, microphone 144produces an analog output signal that is input to ADC 158, whichconverts the analog signal into a corresponding digital signal. Thedigital signal from ADC 158 is input to DSP 156 for further processing,and the output of the DSP is applied to USB interface 163 for connectioninto controller 104 a. In this embodiment, voice communication module140′ connects into the functional unit or module port on controller 104a through a USB connection (not separately shown). Similarly, digitalsound data coming from game console 100 are conveyed through controller104 a and applied to USB interface 163, which conveys the digital signalto DSP 156 and onto DAC 161. DAC 161 converts the digital signal into acorresponding analog signal that is used to drive headphone 146.

With reference to multiplayer game console 100, several key functionalcomponents are shown, although it should be understood that otherfunctional components relevant to the present invention are alsoincluded, but not shown. Specifically, game console 100 includes acentral processing unit (CPU) 150, a memory 152 that includes both readonly memory (ROM) and random access memory (RAM). Also provided is a DSP154. The digital signal produced by ADC 158 in response to the analogsignal from microphone 144 is conveyed through controller 104 a to CPU150, which handles encoding of the voice stream signal for transmissionto other local voice communication modules and to other game consolesover a broadband connection through an Ethernet port (not shown in FIG.2) on the game console.

An alternative embodiment employs DSP 156 in voice communication module140′ to encode the digital signal produced by ADC 158 in response to theanalog signal from microphone 144. The encoded data are then conveyedthrough controller 104 a to CPU 150, which again handles transmission ofthe encoded data to other local voice communication modules and othergame consoles over the broadband connection on the game console.

It should be noted that multiplayer game console 100 can be eitherdirectly connected to another game console using a crossover Ethernetcable as a link, or can be connected to one or more other multiplayergame consoles through a more conventional network using a hub, switch,or other similar device, and/or can be connected to the Internet orother network through an appropriate cable modem, digital subscriberline (DSL) connection, or other appropriate interface broadbandconnection. An alternative embodiment is also contemplated in whichmultiplayer game console 100 is connected to the Internet or othernetwork through a modem (not shown). Digital signals conveyed as packetsover a direct or network connection are input to CPU 150 through theEthernet port on game console 100 (or from other voice communicationmodules and controllers connected to the same game console), and areprocessed by the CPU to decode data packets to recover digital sounddata that is applied to DSP 154 for output mixing. The signal from DSP154 is conveyed to the intended voice communication module for theplayer who is the recipient of the voice communication for input throughUSB interface 163.

An alternative embodiment employs the CPU to convey the encoded datapackets to intended voice communication module 140′ through controller104 a. The encoded data packets are then decoded by DSP 156 in voicecommunication module 140′, and the resulting decoded signal is conveyedto DAC 161, which creates a corresponding analog signal to driveheadphone 146.

In still another contemplated alternative, the headphone and microphonefor each player can be coupled directly to the game console and thefunctions of the voice communication module can be carried out by theCPU or other processor such as a DSP, and appropriate DAC and ADCmodules in the game console. The location of the components that processsound signals to produce sound data conveyed between players and toproduce the analog signals that drive the headphone of each player isthus not critical to the present invention.

CPU 150 also applies voice effects to alter the characteristics of thesound of a player speaking into microphone 144 and is able to change thecharacter of the sound with a selection of different effects. Forexample, a female player can choose a voice effect to cause her voice tosound like the deep-tone voice of a male, or so that the voice has anelfin quality, or so that it has one of several other desired differenttonal and pitch characteristics. Available voice effects from which aplayer can choose are game dependent. Such voice effects cansubstantially alter the sound of the player's voice so that the playeris virtually unrecognizable, and can add drama or greater realism to acharacter in a game being controlled by a player, when the characterappears to speak to other characters in the game. The voice effects thusfacilitate role playing and mask the player's true identity. Even whenplayers connected to the same game console 100 are directly audible toeach other because they are only a few feet apart in the room in whichthe game console is disposed, the change in a player's voice due tovoice effects being applied so alters the sound heard by other playersreceiving the verbal communication through their headphones that thelocal sound of a player's voice propagating within the room to theplayers can easily be ignored.

While not actually a limitation in the present invention, a currentpreferred embodiment of the game console 100 is designed with theexpectation that a maximum of up to 16 players can engage in verbalcommunication during a game being played over a network or over theInternet through an online game service. Clearly, there is a practicallimit to the number of verbal communications from other players withwhich a player might expect to engage at one time. Accordingly, it wasassumed that a player is unable to comprehend verbal communications frommore than four other players speaking simultaneously.

Game Play Scenarios

There are different appropriate scenarios, depending upon the type ofgame and the number of players engaged in a given game that affect therequirements for encoding and decoding voice communication signals. Forexample, there are three primary scenarios that impact on therequirements for voice communication. The first scenario is referred toas “point-to-point” and includes one player on each of twointerconnected game consoles, where each player is engaged in voicecommunication with the other player. In the second scenario, which isreferred to as “multipoint,” there is again only one player who isengaged in voice communication on each game console, but up to 16 gameconsoles are interconnected over a network for play of a game, in whichup to 16 players are participating. The third scenario is referred to as“multiplayer on game console,” since up to four players per game consoleand up to four game consoles can be interconnected over a network toenable up to 16 players to simultaneously play a game and verballycommunicate. In regard to the last scenario, two or more players on asingle game console can also use voice communication during a gamealthough they are physically located within the same room, since thebenefits of the voice changes produced by use of the voice effectsoption can enhance the enjoyment of the game and role playing by eachplayer, as noted above. Further, the limits of the total number of gameconsoles/player referenced above in each of the three scenarios can bethought of as soft limits, since there is no inherent hardwarelimitation precluding additional players or game consoles participating.

By designing games in accord with one or more of these three scenarios,it is possible for the software designer to set a maximum predefinedlimit on the computing resources that will be allocated to voicecommunication, to avoid voice communication from adversely impacting thequality of game play. Also, a specific game that is played on themultiplayer game console can have its own requirements so that it isappropriate for play by only a certain number of players. The nature ofthe game will then dictate limitations on the number of verbalcommunication channels required. For example, a game such as chess willnormally be played using the point-to-point scenario, because chesstypically involves only two players. The voice communicationfunctionality enables the two players to talk to each other whileplaying a chess game. For this point-to-point scenario, each gameconsole would need to instantiate only one encoder and one decoder,since more encoders and decoders are not required. During each voiceframe update, the CPU on a game console will update any encoding anddecoding as necessary. Using a predefined encode CPU usage limit of 1.5percent and a decode CPU usage limit of 0.5 percent in thepoint-to-point scenario, the total requirement for CPU usage would beonly about 2.0 percent.

As shown in the functional block diagram of FIG. 4, a game console 102is coupled in voice communication with a game console 172. Microphone144 responds to the voice of the player using console 102, and the voicecommunication module connected to the microphone produces pulse codemodulated (PCM) data that are input to a single stream encoder 160. Inresponse to the PCM data, the encoder produces compressed data packetsthat are then transmitted over a network 170 to which game console 172is connected.

Alternatively, signal stream encoding can be carried out by the DSP ofvoice communication module. In this embodiment, microphone 144 respondsto the voice of the player using game console 102, and DSP 156 isconnected to ADC 158 and produces the compressed data packets that arethen sent to game console 102 for transmission over network 170 to gameconsole 172.

The compressed data from game console 102 are input to a network queue174 in game console 102. The purpose of using a network queue to receivesound packet compressed data from console 102 is to remove jitter andother timing anomalies that occur when data are sent over network 170.The output of the single stream decoder is PCM data which are thenapplied to the DAC in the voice communication module of the player usinggame console 172 to produce an analog output that drives a headphone178.

In an alternative embodiment, the compressed data are conveyed from gameconsole 102 to DSP 156 in the voice communication module. The DSPdecodes the compressed data, converting to a corresponding PCM signal,which is applied to DAC 161 in the voice communication module of theplayer using game console 172, to produce a corresponding analog outputsignal used to drive headphone 178.

Similarly, for verbal communications from the player using console 172,a microphone 180 converts the sound incident on it into PCM data usingthe ADC within the communication module to which microphone 180 isconnected, and the PCM data are input to a single stream encoder 182,which produces compressed data that are conveyed through network 170 toa network queue 162 within game console 102. The compressed data fromnetwork queue 162 are input to a single stream decoder 168, whichproduces PCM data that are input to DAC converter in the voicecommunication module to which headphone 146 is connected. The DACproduces a corresponding analog sound signal. Thus, headphone 146receives the analog sound signal corresponding to the sound of theplayer connected to console 172 (with any voice effects added).

In the multipoint scenario, where there is one player on each console,but multiple game consoles participating in a game session, the gamedesigner can determine if all players should be able to verballycommunicate with all of the other players playing the game, or if therewill be teams comprising subsets of the players, so that only theplayers in on the same team may talk to each other. For example, if thegame being played in multipoint scenario is a card game, there might befour individual players, one each per game console, or there might betwo teams of two players each. If there are four separate players, eachgame console would instantiate one encoder and one four-to-one decoder(as discussed below). During a voice frame update, each console wouldupdate any encoding necessary for transmitting speech by the singleplayer using the game console, and decoding of speech data from any ofthe (up to) three other players on the other game consoles participatingin the game. For this scenario, using a predefined encode limit for CPUusage of 1.5 percent and a four-to-one decoder limit for CPU usage ofabout 1.3 percent, the total would be about 2.8 percent CPU usage on anyof the four game consoles being used to play the card game.

FIG. 3 illustrates how the multipoint scenario is functionallyimplemented on each game console, but does not show the other gameconsoles. However, it will be understood that network 170 couples theother game consoles in communication with the illustrated game console.As noted above, the game console includes a single stream encoder 160,which receives the PCM data produced by the ADC in the voicecommunication module (not shown in FIG. 3) of the player. The PCM dataare input into single stream encoder 160, producing voice frames ofcompressed data in packet form for transmission over network 170 to theother game consoles. Similarly, packets of compressed data are conveyedthrough network 170 from the other game consoles to the illustrated gameconsole. Each player participating in the game (or channel) has anetwork queue on the game console in which the data packets aretemporarily stored, to ensure that jitter and other timing problems areminimized when the packets of compressed data are selected by aselection engine 164 for mixing by a mixer 166 and decoding by decoder168. Decoder 168 produces PCM data that are supplied to the DAC, whichproduces the analog signal that drives headphone 146.

In an alternative embodiment, selection engine 164 conveys the twoselected compressed data streams to DSP 156 of the voice communicationmodule (shown in FIG. 2) for mixing and decompression. DSP 156 producesa corresponding PCM signal that is supplied to the DAC in the voicecommunication module, which in turn, produces the corresponding analogsignal that drives headphone 146.

As indicated in FIG. 3, network queues 162 a, 162 b, and 162 c arerespectively provided for each of the other players—up through Nplayers.

In the multipoint scenario discussed above, there are only three networkqueues, since there are only three other players engaged in the cardgame. Since mixer 166 only combines two inputs at a time, decoder 168only can provide simultaneous PCM data for two players at a time to theplayer wearing headphone 146. In contrast, an alternative is also shownin which a decoder 168′ includes a mixer 166′ that combines four datapackets from a selection engine 164′ at a time, to produce the outputprovided to headphone 146. In this alternative, the player is providedup to four other voice data packets simultaneously.

Alternatively, selection engine 164 can be employed to convey fourselected compressed data streams to DSP 156 in the voice communicationmodule of an intended recipient. DSP 156 again produces a correspondingPCM signal that is supplied to the DAC in the voice communicationmodule, producing the corresponding analog signal to drive headphone146.

Functional details for the “multiplayer on game console” scenario areillustrated in FIG. 5 where game console 102 is connected to network 170through a network layer 206 and thus to a game console 210, havingplayers 216 a and 216 b, to a game console 212 having a single player218, and to a game console 214 having four players 220 a, 220 b, 220 c,and 220 d. Game console 102 has players 200 a, 200 b, 200 c, and 200 dconnected thereto, and each player is provided with a game controllerhaving a voice communication module. For this scenario, all of theplayers on each of consoles 210, 212, and 214 have voice communicationsthat are encoded to produce single streams of compressed data packets.Network layer 206 in game console 102 conveys the data packets from eachof the three other game consoles into three separate network queues,including a network queue 162 for second game console 210, a networkqueue 184 for third game console 212, and a network queue 186 for fourthgame console 214. The output from the three network queues in gameconsole 102 is input to decoder 168, and its output is applied to anoutput router 188 that determines the specific headphone that receivesvoice communications 190 a through 190 d.

An alternative embodiment employs output router 188 to bypass decoder168 and pulls compressed data packets directly from network queues 162,184, and 186. Output router 188 conveys the compressed data to the DSPin the voice communication module of the intended recipient, so that theheadphone of that player receives voice communications 190 a through 190d.

Accordingly, each of players 200 a through 200 d receives only the voicecommunications intended for that player. Similarly, each of the fourplayers on game console 102 has a sound input from their correspondingmicrophones 202 a, 202 b, 202 c, and 202 d supplied to an input router204, which selectively applies the PCM data streams to encoder 160,which has an output coupled to network layer 206. The network layerensures that the compressed data packets conveying sound data aretransported over network 170 to the appropriate one of game consoles210, 212, and 214. The output router in each game console with multipleplayers determines the player(s) who will receive the voicecommunication from a player using game console 102.

Another embodiment bypasses input router 204 and encoder 160 by encodingthe compressed data using the DSP in the voice communication module ofthe player who is speaking.

Prioritization/Round Robin Technique for Encoding

FIG. 6 illustrates functional aspects regarding prioritization on a gameconsole handling voice communication by up to four players who are usingthe game console to play a game. During each voice interval, only two offour encoder instances are active, so that there are fewer encoders thanthere are players having voice communication capability, on the gameconsole. Thus, although there are four microphone 211 a, 211 b, 211 c,and 211 d, the digital PCM data from the ADCs in the voice communicationmodules respectively connected to the microphones are not all encoded atthe same time. Each stream of PCM data is applied to a voice activationdetection algorithm, as indicated in blocks 213 a, 213 b, 213 c, and 213d. This algorithm determines when a player is speaking into themicrophone and producing PCM data that should be encoded fortransmission to one or more other players in a game. In the worse casescenario, all four players might be speaking at the same time so thatthe voice activation detection algorithm would indicate that PCM datafrom all four microphones connected to the game console need to beencoded. However, since only two voice streams can be encoded at onetime in this preferred embodiment, a prioritizing algorithm in a block215 determines or selects the streams of PCM data that are input to thetwo parallel encoders 160′. These encoders produce compressed data inpacketized frames that are conveyed over the network (assuming that thegame console is connected to one or more other game consoles over a linkor network). In the example shown in FIG. 6, the prioritizing algorithmhas selected two streams of PCM data, including PCM data 217 c and 217d, as having the highest priority for encoding in the current frame foroutput over the network. In contrast, PCM data in streams 217 a and 217b are marked as not having a voice input, but will have the highestpriority for encoding in the next frame of compressed data if they theninclude voice data.

A round-robin encoding method is used to enable two parallel encoders toencode voice communications from four players, so that fewer encodersare required on the game console than the total number of players thatmay be speaking during any given voice data frame. FIG. 12 providesdetails concerning the logical steps that are implemented to enableround-robin encoding of a voice frame, beginning with a start block 380.In a step 382, an array of the four PCM packets (one for each player) isassembled. In the case where a player does not have a voicecommunicator, a PCM silence packet is inserted into the array. Adecision step 384 determines if the logic is carrying out a first loopfor the current voice frame. If so, a step 386 provides for preparingpriorities in an array using the variable priority (i) where i can havethe values 0, 1, 2, or 3. Thereafter, the logic proceeds with a step390.

If the logic is not making a first loop for the current voice frame, itproceeds to a step 388, wherein the logic uses the priorities array thatwas generated in a previous loop for the current voice frame.Thereafter, the logic also proceeds to step 390. In step 390, thedetection of voice activation is carried out so that PCM packets aremarked to indicate whether they have voice content. The algorithmdetects whether the current sound level is substantially greater than anaverage (background) level, which indicates that a player with amicrophone is probably currently speaking into it. Alternatively, thePCM packets can be analyzed to detect voice characteristics, whichdiffer substantially from background noise characteristics. A step 392then initializes the variable priorities index as being equal to zeroand a variable encodeops as being equal to zero.

A decision step 394 determines if the priorities index variable is lessthan four and whether the encodeops variable is less than two. Sincedecision step 394 is initially reached immediately after step 392 inwhich these two variables have been initialized to zero, both thesecriteria are met, leading to a step 402. In step 402, a variable PCMstream index is set equal to the variable priorities with a value iequal to the priorities index variable. In the initial pass for a voiceframe, the PCM stream index variable is set equal to priorities [0].

A decision step 404 then determines if voice has been detected for PCMpacket with an index equal to the PCMstream index. Again, with theinitial pass through this logic during a voice frame, the decision stepdetermines if a voice was detected for PCM packet [PCM stream index]. Ifso, a step 406 moves the variable priorities [priorities index], whichis at the end of the priorities array and shifts all other elementsafter it one place forward. A step 408 then sets the variable encodeopsequal to its previous value plus one, thereby incrementing the variable.If voice was not detected in decision step 404, a step 410 setspriorities index equal to priorities index plus one, therebyincrementing that variable. Following either step 408 or step 410, thelogic proceeds with decision step 394.

Once the priorities index variable is equal to four or the encodeopsvariable is equal to two, the logic proceeds to a step 396. In thisstep, the logic sets the voice detected property for PCM packets[priorities [0]] and PCM packets [priorities [1]] on false. A step 398then provides for parallel encoding of PCM packet [priorities [2]] andPCM packet [priorities [3]]. Finally, in a step 400, the logic assemblesan array of four compressed data packets for transmission over thenetwork for the current voice frame. Based upon this logic, it will beapparent that if all four players are actually speaking, PCM packetswill be encoded to form the compressed packets using this round-robinalgorithm so that all of the players on a voice console can communicatewith other players in the game.

It may be helpful to work through an example in which it is assumed thatplayers one, two, three, and four are all talking at the same time. Ahistory of the last two voices or players that have been encoded ismaintained. The logic starts looking at the current microphone packetfor player one. If a voice is detected by the algorithm, it is encoded.Next, the same determination is made for player two, i.e., if a voice ispresent at player two's microphone, it is encoded in the current voiceframe. The initial history starts out with the players ordered [1, 2, 3,4], but at this point, it is updated so that the order is players [3, 4,1, 2]. The logic loops back, after a predefined microphone encodinginterval, to process the audio data for the two players that were notprocessed the last time. Currently the history list is [3, 4, 1, 2], soa check is made to determine if player three currently has voice inputon his microphone, and if so, it is encoded. However, if player three isno longer talking at this time, the logic instead proceeds to playerfour, who it is assumed is talking. Accordingly, the digital PCM voicepacket for player four is encoded and the history is updated to [3, 1,2, 4]. Next, the logic proceeds to player one, encoding that player'svoice, producing a new history [3, 2, 4, 1]. The logic will then startwith players three and two. Assuming that player three still is notspeaking so that there is no voice at that player's microphone, thelogic encodes the digital PCM packets for players two and four, yieldinga history list [3, 1, 2, 4].

In one embodiment, for each PCM packet of a player that is skipped andnot encoded, the previous packet for that player is attenuated andreplayed for the voice frame. In the worst possible state, when allplayers are talking and there are actually four different players on thegame console who are in different teams, every other PCM packet of eachplayer is skipped. Although this approach may have a slight negativeimpact on the quality of the voice of each player, it is the worst casescenario, and this scenario typically occurs infrequently during gameplay.

It should be noted that PCM packets of a player that are skipped andthus must be filled in by repeating the previous packet are nottransmitted over the network. Instead, the repeated PCM packet ishandled by the receiving game console used by the intended recipient ofthe packet. Accordingly, at most, two packets are sent from a gameconsole during any one voice frame, instead of the maximum of four. Thequeue buffers the previous packet and provides it to replace a skippedpacket. Alternatively, a skipped packet will not be put into the queueby the receiving game console, but instead, a notification indicatingthat the packet was skipped by the game console that made thetransmission will be inserted into the network queue of the receivinggame console, for that channel.

The round-robin encoding technique only operates on two frames of speechat a time and repeats the other frames of those streams that are notcurrently encoded. As noted above, this can result in degradation ofsound when all four players on a game console are speaking, but thetechnique avoids using additional CPU resources to separately encode thevoices of all four players, which might have a negative impact on gameplay.

In an alternative embodiment, one encoder per player is allocated forencoding speech. However, this embodiment is less desirable, because itrequires twice the computational resources as the embodiment discussedabove.

Voice Communication over Link/Network

FIG. 10 illustrates the general steps applied for enabling voicecommunications over a link or network. Initially, a game is started in astep 330. Next, a decision step 332 determines if the player is stoppedfrom communicating by voice with other players. This state may resultbecause of the player being banned or suspended from voice communicationby the online game service due to violations of a code of conduct orother service policies. Another reason voice may be blocked is due to adetermination by an authorized person such as a parent that a minorchild should not be permitted to engage in voice communications withother players during a game. This option is available and can be setusing options provided on the game console for specific player accounts.Once set, the data are stored on the online game service, and blockageof voice communication is enforced each time the player connects to theservice. If the current player's voice communication is blocked, a step334 determines that the game console need not process voicecommunications and instead, proceeds to a next speaker, in a step 336.Assuming that the next speaker is not precluded from having voicecommunication by a setting on the game console, the logic advances to astep 338, which gets the PCM data from the ADC in the voicecommunication module for that player. Next, the logic compresses the PCMspeech data into compressed data in a step 340. A step 342 applies anyassigned voice effects when compressing the current player's PCM speechdata to alter the characteristics of the player's voice. In a step 344,the compressed data are transmitted over a network 346 to an intendedreceiving game console to reach the intended recipients that have avoice communication module. A step 348 provides for processing the nextspeaker on the game console that is transmitting compressed data,thereby returning to decision step 332.

On the game console that has received the voice communication overnetwork 346, a step 352 provides for adding the compressed data to anetwork queue of such data. Next, in a step 354, the game consoledecompresses the compressed data pulled from the queue, producingcorresponding PCM data. A step 356 provides for adding any optionalenvironmental effects. Such effects are generally determined by optionsprovided in a game being played on the game console. For example, anenvironmental effect might include adding an echo, or introducing areverberation if the environment of the game is within a cavern, or theenvironmental effect might involve providing a frequency bandequalization, e.g., by adding a bass boost for play of the audio data onsmall speakers. Next, a step 358 mixes voice streams received from aplurality of different players into one output voice stream that will beprovided to an intended recipient player. The output voice stream isconveyed as PCM data to the DAC associated with the headphone of theintended recipient player in a step 360, which produces a correspondinganalog signal to drive the headphone. The player thus hears the voicecommunication from each of the players that were decoded and mixed intothe output voice steam.

Muted Voice Communication Between Players

Another situation arises whenever a specific player has been muted fromvoice communication by another player. Once a player has thus beenmuted, the specific muted player will be unable to either hear or speakwith the muting player. The muting player must explicitly unmute themuted player to restore voice communication.

Handling of Network Data Packets

FIG. 11 illustrates further details in regard to the receipt of voicecommunication data as packets over network 346. As indicated in block351 a and 351 b, compressed data are received over the network from Nother game consoles. Each channel of the compressed data is initiallyinput into one of N queues 351 a-351 b, where a separate queue isprovided for each player on a connected game console (one or moreplayers on each game console). A block 364 then synchronizes the Nqueues that have been formed to receive the compressed data. In thisstep, the encoded and compressed packets are obtained from all of thequeues for a current voice frame. A selection engine 366 then determinesthe compressed packets that should be assembled for input to thedecoding engine in a block 368. The decoding engine decompresses anddecodes the compressed data, converting the data into PCM data that arethen applied to each of the connected voice peripheral communicationsmodules 370 through 372 to enable the players respectively using thosevoice communication modules to hear the sound that was transmitted overthe network to them.

Details relating to the processing of encoded packets that are receivedfrom each queue are shown in FIG. 7. In a block 221, the CPU checks eachqueue to obtain an encoded compressed packet or the queue notifies theclient CPU that it does not have a packet from a player, but that apacket for that player should have been in the queue. In this case, theCPU determines if the previous packet obtained for that player from thequeue was in fact a valid encoded packet and if so, the CPU copies theprevious packet for that player so it can be provided for furtherprocessing in the next block. However, if the previous packet for thatplayer was also missing, the CPU does an attenuation on previous packetsfor that player. The purpose of this step is to minimize the perceptionof silence caused by a missing packet resulting from skipping packetsduring round-robin encoding and from dropped packets due to networkconditions.

Next, in a block 222, the packets that have been obtained in block 221are ordered, and all silent packets in the order are eliminated. Theresult is a subset of the packets originally provided in the queues. Dueto the processing noted above, all packets in the subset will containvalid voice data.

Next, a block 224 provides for applying channel masks to the voice data.Each player is associated with a channel, and all players on aparticular channel are able to communicate by voice with each other. Forexample, one channel may be used for voice communication between aplayer who is designated as a team leader and team members, enablingthat player to communicate with all members of the team. In addition,the team leader may also be able to select another channel for verbalcommunication with another player designated as a commander, who is ableto communicate with a plurality of team leaders, or yet another channelto enable the team leader to communicate only with the other teamleaders. In this implementation, each player who is talking is given a16-bit word that defines the “talker channel” for the player. The gamedetermines what the individual bits of the word for the talker channelmean, e.g., indicating that the talker channel is for a team, a teamleader, a commander, etc. In addition, each player can be assigned a“listener channel” on which they can receive speech. When a voicecommunication comes in over the network, the talker channel is logically“ANDed” with the listener channel for a given player, and if the resultis not zero, then that player is able to hear the voice communication.In this manner, the game being played (or each player, within theconstraints of the game) is able to select arbitrary permutations thatdetermine the players that are coupled in voice communication with otherplayers.

Referring again to FIG. 7, block 224 enables each player to choose tolisten to only some channels and to employ a channel mask. A channelmask is applied for each player on the game console resulting in up tofour subsets of voice streams—one subset for each player listening,based upon the player's individual listener mask. Each person who islistening will have a list of candidate packets included in differentvoice streams.

In a block 226, the muting mask and user defined priorities are applied.While a preferred embodiment enables a player to selectively precludefurther voice communications with a selected player, it is alsocontemplated that a player might selectively only mute voicecommunications with a specific player during a current game session. Inthis alternative embodiment, each player on a game console might chooseto mute certain people on listening channels. Voice streams from playerswho have been muted by that player will then be eliminated from the listof candidate voice streams for that player on the game console. Anyremaining voice streams for each player are sorted by user-definedpriorities. In this step, one voice stream may have the highest priorityall the time. For example, the game (or a player—if the game permitsthis option) may selectively set a channel coupling team member in voicecommunication with a team leader so that that channel has the highestpriority for each of the team members. Loudness of the incoming voicestream can also be a basis for determining the priority of a channel fora given player, so that the player hears the loudest voice streams allof the time. Alternatively, or in addition, if a voice stream hasstarted to render, the game will wait for it to finish regardless of theloudness of the other voice streams that started later so that asentence is not cut off in “mid-stream,” before it is finished. As afurther alternative or in addition, other priorities can be defined foreach voice channel. For example, a game-specific role related prioritycan be applied.

Following block 226, decoding is applied to the voice streams resultingfrom applying the muting masks and user/game defined priorities usingeither a decoding engine type one as indicated in a block 228 or adecoding engine type two as indicated in a block 230. In block 228,decoding engine type one allocates decoders, mixing and decoding foreach player method. In this algorithm, for each player, the first Npackets in a list of ordered packets are selected. If the list containsless than N elements, silent compressed data packets used instead of theinexistent packets to avoid producing spikes in the CPU processing ofthe voice packets.

In block 230, when applying decoding using engine type two, decoders areallocated for decoding and mixing in a DSP method. In accordance withthis algorithm, until the maximum number of decoded packets is reached,or the end of the candidate packet is reach, or the end of the candidatepacket list is reached, the current player is obtained from the orderedlist of packets, if the list is not empty. If the head of the list ofordered packets has not been chosen before, the head of the list is thenchosen to be decoded and the counter is incremented for the decodedpackets. Thereafter, the head of the list is eliminated from the orderedlist. Next, the algorithm moves to the next player, who then becomes thecurrent player. For example, after player four, player one would thenagain become the current player. If any decoding slots remain fordecoding additional voice packets, silence packets are applied to theparallel decoder to avoid spikes in CPU processing of the voice packets.

Decoding Engines, Types One and Two

In FIG. 8, details relating to the functional aspects of decoding enginetype one are illustrated. As shown therein, encoded streams from onethrough N designated by reference numerals 240, 242, and 244 providecompressed data to a selection engine 257 that chooses two encodedstreams for decoding for each player headphone. In this case, an encodedstream 1.1 and an encoded stream 1.2 are selected for input to decoder168 where the streams are mixed by a mixer 252 prior to decoding. Theoutput of the decoder is PCM data that are supplied to the DAC withinthe voice communication module for a headset 248. Similarly, for each ofthe other player headphones, another decoder 168 receives encoded voicestreams as compressed data, which are then mixed and decoded. As shown,the decoder for a fourth player includes a mixer 254 that mixes encodedvoice streams 4.1 and 4.2 so that the decoder produces PCM data that aresupplied to the DAC that provides the analog signal to drive a headphone250 for the fourth player on the voice console. Of course there areinstances where less than four players will be using a game console, inwhich case, fewer than four decoders are required to be active.

An alternative embodiment to both decoding engine type 1 and decodingengine type 2 conveys the prioritized voice streams (at block 226)directly to the DSP in the voice communication module of the intendedrecipient.

Functional aspects of the type two decoding engine are illustrated inFIG. 9A. Again, encoded streams one through N represented by referencenumbers 240, 242, and 244 are input to a selection engine 260, whichchooses the maximum four encoder streams, a minimum of one for eachplayer who is listening and has a voice stream addressed to that player.In this case, four parallel decoders 262 receive the four selectedencoded voice streams of compressed data. The decoders then decode thecompressed data and supply the resulting PCM data to a mixer for eachplayer to whom any voice stream was intended. In this case, the firstplayer receives two voice streams from other players that are mixed by amixer 270 in a mixer identified by reference number 264. Although notshown, each of the other players receiving voice communications fromother players in the game would also be provided with a separate mixingbin to which the output of the four parallel decoders is applied formixing. For example, the fourth player receives three voice streams thatare mixed by a mixer 272 in a mixer identified by reference numeral 266.The resulting PCM data are then applied to headset 250 for the fourthplayer. Thus, each player can receive from one to four voice streamsthat are mixed by the four-in-one mixing bin assigned to that player.

Another embodiment (at block 260) bypasses decoder 262 and mixers 264and 266 and conveys the compressed data to the DSPs of the voicecommunication modules coupled to headphones 248 and 250, respectively.

An alternative approach for use in the type two decoding engine isillustrated in FIG. 9B. In this embodiment, the relative disposition ofthe decoder and the mixers are reversed from that shown in FIG. 9A.Specifically, each player is provided with a two-stream mixer that iscoupled to receive and mix the compressed data incoming over thenetwork. A two-stream mixer 280 is provided for player one, a two-streammixer 282 for player two, a two-stream mixer 284 for player three, and atwo-stream mixer 286 is provided for player four. Up to two voicestreams of compressed data are thus input to each of these mixers perplayer and are mixed, providing a single mixed stream from each mixerfor input to a four-stream parallel decoder 288. This decoder thendecodes the compressed data producing PCM data that is supplied to eachplayer headphone 248, 252, 253, and 250 who is an intended recipient ofa voice communication from another player.

Yet another embodiment provides that the compressed data conveyed totwo-steam mixers 28, 282, 284, and 286 is decoded by the DSPs of thevoice communication modules coupled respectively to headphones 248, 252,253, and 250.

Controlling Voice Communication with Other Players

As noted above, a player has the option of precluding further voicecommunications with a specific player because of behavioral issues orfor other reasons. For example, if a specific other player tends to usesexcessive profanity, a player may choose not to engage in furthercommunications with that other player. Each game will generally providean option for a player to mute voice communications with another playerfor the current and future game sessions, and it is also contemplatedthat a player might also be enabled to mute voice communications withanother player for only a current game session. FIGS. 13, 13A, and 13Billustrate exemplary dialog boxes that enable this control of voicecommunication to be implemented in a game called “MY GAME.” Thisfictitious game lists each of the players, as shown in a player list box430. Player list box 430 includes six players of which the top listedplayer has been selected as indicated by a selection bar 434. Thisplayer, who plays the game using the alias “Avenger,” has voicecommunications capability, as indicated by a speaker symbol 436 that isshown in one column of the dialog, in the same row as the alias. Playersrespectively using the aliases “Iceman” and “Raceox” do not have voicecommunication capability, as is evident by the lack of speaker symbol436 in this column, in the same row as either of these aliases. A radiobutton 438 is provided to enable any of the players listed to be mutedfrom voice communication with the current player who is viewing playerslist box 430. In this case, Avenger has been selected by the player, asindicated by radio button 438. When the player is selected, a window 440opens that identifies the selected player and notes that this player iscurrently one of the participants in the game and has a voicecommunication module. If the player viewing player's list box 430 clickson a select button 442, a voice communication status select 450 opensthat includes an option bar 452, which can be toggled to differentstates. As shown in FIG. 13A, option bar 452 indicates that the selectedplayer has been enabled to verbally communicate with the player who isselecting this option. In FIG. 13B, the option bar has been toggled to astate 454, which indicates that the player viewing the state wants tomute the selected player for the current game session. Depending uponthe selection that the player makes, speaker symbol 436 will change.Instead of that shown in FIG. 13, if the player selected the option tomute the specific player has been chosen a dash box will appear aroundthe speaker symbol shown. This type of muting expires after the currentgame session ends. On the other hand if the specific player has beenselectively locked out, a dash heavy-bar box will be added aroundspeaker symbol 436. In this case, the decision to mute a player can onlybe turned off by the player making that decision from within a gamesession or using a system control for the game console. Yet anothersymbol (not shown) is used to indicate that voice communications forcorresponding player are being played through loudspeakers (e.g.,television or monitor speaker) connected to the game console of therecipient player, rather than through a headphone. This option can beselected by a player, who prefers not to wear a headset, but is lessdesirable, since the player will not be using a microphone to verballycommunicate with other players.

In the event that a number of players provide negative feedbackconcerning a specific player based upon the verbal behavior of thatplayer being deemed to be unacceptable, such as excessive use ofprofanity, or use of sexually explicit language, the online game servicecan automatically determine that the number of complaints received hasexceeded a threshold, causing the specific player to be banned fromfurther voice communication. The ban might initially be for a limitedperiod of time such as a week, and then subsequently, if furthercomplaints are received beyond the threshold, the specific player mightbe banned permanently from voice communication. A specific player thathas been banned in this manner will be informed first of the temporarysuspension of voice communication capability, and then of the permanentsuspension, if the behavior of the player causes that result. Each timea player logs into the online game service on a game console, permissionflags are downloaded to the game console as part of the sign in process.These flags include information about various aspects of the system. Oneof the flags determines whether a specific player has permission toengage in voice chat. Accordingly, in the event that a specific playerviolates the terms of service or code of conduct, the bit controllingthe ability of the player to communicate by voice can be changed topreclude such voice communications.

Once a player has elected to preclude voice communications with aspecific player, the identification of the specific player is preferablytransmitted to an online game service and stored there in relation tothe identity of the player making that election, so that in futuresessions of any games, the player who has made such a decision will notreceive any voice communication from the specific other player and willnot transmit any voice communication to the specific other player. Thisdecision will not be apparent to the specific other player, since thedialog box showing the status of players in a game will simply displayan indication on the specific other player's view that the player makingthat decision lacks voice communication capability, and in the dialogdisplayed to the player making the decision, the muted status of thespecific other player will be indicated. Thus, even though the specificplayer changes the alias used or signs on with a different game console,the prohibition against voice communication for the specific player madeby a player will continue in force.

When participating in a game over the Internet or other network, aplayer may optionally, depending upon the game being played, choose toplay only with players who agree to a specific language in which voicecommunications are to be conducted. Also, the player can optionallydetermine to play a game only with those players having voicecommunication capability. Similarly, players without voice communicationcapability may selectively play in games only with those other playerswho also do not have voice communication capability. These decisionstypically will apply only to a current game session.

Although the present invention has been described in connection with thepreferred form of practicing it and modifications thereto, those ofordinary skill in the art will understand that many other modificationscan be made to the present invention within the scope of the claims thatfollow. Accordingly, it is not intended that the scope of the inventionin any way be limited by the above description, but instead bedetermined entirely by reference to the claims that follow.

1-34. (canceled)
 35. A method of limiting computer resources allocatedto verbal communication in an electronic game console, so that providingcomputer resources to enable said verbal communication does notadversely impact a quality of play of a game on the electronic gameconsole, comprising the steps of: (a) predefining a total, processorusage limit for verbal communication in the electronic game console,wherein the processor usage limit includes: (i) a predefined processorusage limit for encoding verbal communication by all players using theelectronic game console; and (ii) a predefined processor usage limit fordecoding verbal communication from all of players connected to play thegame; and (b) automatically determining a configuration of theelectronic game console that enables the verbal communication to beachieved in accord with the predefined processor usage limit forencoding and in accord with the predefined processor usage limit fordecoding, when the electronic game console is used for playing the game,the configuration of the electronic game console being automaticallydetermined at least in part as a function of a number of players usingthe electronic game console.
 36. The method of claim 35, wherein theelectronic game console is coupled over a network to at least one otherelectronic game console, and wherein the step of automaticallydetermining comprises the steps of: (a) automatically determining anumber of electronic game consoles coupled together over the network toplay the game; and (b) automatically determining a total number ofplayers playing the game over the network.
 37. The method of claim 36,wherein the step of automatically determining the configuration of theelectronic game console is further dependent upon the number ofelectronic game consoles that are coupled together and the total numberof players playing the game that was determined.
 38. The method of claim37, wherein the step of automatically determining the configuration ofthe electronic game console comprises the step of determining a numberof encoders and a number of decoders required to process the verbalcommunication for the electronic game console.
 39. The method of claim38, further comprising the step of allocating the predefined processorusage limit for encoding among the number of encoders required toprocess verbal communication in the electronic game console.
 40. Themethod of claim 38, further comprising the step of allocating thepredefined processor usage limit for the decoding among the number ofdecoders required to process verbal communication in the electronic gameconsole.
 41. The method of claim 35, wherein the predefined processorusage limit for decoding in the electronic game console is allocatedusing at least one of the following: (a) an output router that conveyscompressed data packets to a digital signal processor in a voicecommunication module of a player in order to enable verbalcommunication; and (b) a CPU that conveys the encoded data packets to avoice -communication module through a controller so that the digitalsignal processor in the voice communication module of the player decodesthe encoded data packet to enable verbal communication.
 42. The methodof claim 35, wherein the predefined processor usage limit for theencoding in the electronic game console uses at least one of thefollowing: (a) a digital signal processor that performs signal streamencoding to enable verbal communication; (b) a router is coupled to anencoder, to selectively encode data packets from a plurality of sources,to enable verbal communication.
 43. A memory medium having a pluralityof machine executable instructions for carrying out the step of claim35.
 44. An electronic game console in which computer resources allocatedto verbal communication are automatically limited, so that providingcomputer resources to enable said verbal communication does notadversely impact a quality of play of a game on the electronic gameconsole, comprising: (a) a processor; and (b) a memory coupled to theprocessor, the memory storing machine instructions to play the game andfor causing the processor to: (i) predefine a total, processor usagelimit for verbal communication in the electronic game console, whereinthe processor usage limit includes: (1) a predefined processor usagelimit for encoding verbal communication using the electronic gameconsole; and (2) a predefined processor usage limit for decoding verbalcommunication by players connected to play the game; and (ii)automatically determine a configuration of the electronic game consolethat enables the verbal communication to be achieved in accord with thepredefined processor usage limit for encoding and in accord with thepredefined processor usage limit for decoding, when the electronic gameconsole is used for playing the game, the configuration of theelectronic game console being determined at least in part as a functionof a number of players using the electronic game console.
 45. The systemof claim 44, wherein the electronic game console includes a networkinterface that is coupled over a network to at least one otherelectronic game console, and wherein the machine instructions furthercause the processor to: (a) automatically determine a number ofelectronic game consoles coupled together over the network to play thegame; and (b) automatically determine a total number of players playingthe game.
 46. The system of claim 45, wherein the machine instructionscause the processor to automatically determine the configuration of theelectronic game console based on the number of electronic game consolesthat are coupled together and the total number of players playing thegame.
 47. The system of claim 46, wherein the machine instructionsfurther cause the processor to determine a number of encoders and anumber of decoders required to process the verbal communication for theelectronic game console.
 48. The system of claim 47, wherein the machineinstructions further cause the processor to allocate the predefinedprocessor usage limit for encoding among the number of encoders requiredto process verbal communication in the electronic game console.
 49. Thesystem of claim 47, wherein the machine instructions further cause theprocessor to allocate the predefined processor usage limit for thedecoding among the number of decoders required to process verbalcommunication in the electronic game console.
 50. The system of claim44, further comprising a voice communication module that includes adigital signal processor, a controller, and an output router coupled tothe digital signal processor, wherein the machine instructions cause theprocessor to allocate the predefined processor usage limit for decodingin the electronic game console using at least one of the following: (a)an output router that is coupled to a decoder and conveys a compresseddata packet to the digital signal processor in a voice communicationmodule of a player to enable verbal communication; and (b) the digitalsignal processor in the voice communication module, wherein theprocessor conveys encoded data packets to the voice communication modulethrough the controller so that the digital signal processor in the voicecommunication module of the player decodes the encoded data packet toenable verbal communication.
 51. The system of claim 44, furthercomprising a digital signal processor and a router, wherein the machineinstructions cause the processor to allocate the predefined processorusage limit for the encoding in the electronic game console using atleast one of the following: (a) the digital signal processor, whichperforms signal stream encoding to enable verbal communication; (b) therouter, which is coupled to an encoder, to selectively encode datapackets from a plurality of sources, to enable verbal communication.